TW200822589A - User specific downlink power control channel Q-bit - Google Patents

Abstract

Systems and methodologies are described that facilitate controlling transmission power of a wireless terminal. A downlink power control channel segment may include an Orthogonal Frequency Division Multiplexing (OFDM) tone-symbol that may comprise a first component and a second component. The first component may be an in-phase (I) component and the second component may be a quadrature (Q) component, for example. A power command may be transmitted in the first component. Further, information associated with a wireless terminal may be transmitted in the second component. The information associated with the wireless terminal may be, for instance, a portion of a scrambling mask associated with the wireless terminal.

Description

200822589 IX. Description of the invention: [Technical field to which the invention pertains] As a general description, the following description relates to wireless communication, and more particularly to the provision of a downlink power control channel in a wireless communication system. Verification information associated with the wireless terminal. [Prior Art] A feedless system is widely deployed to provide various types of communication, such as voice and/or data provided by such wireless communication systems. A typical wireless communication system or network can provide access to one or more 'shared resources' for multiple users. For example, a system can use a variety of multiple proximity technologies, such as frequency division multiplexing (FDM), time division multiplexing (tdm), code division multiplexing (CDM), and other multiple proximity technologies.

L's wireless communication system uses one or more offer-coverage areas. The base station of the code f can be broadcast, multicast and/or unicast service independent: A wireless terminal can be used to pick up the flow. One or more than one or all of the information carried by the wireless terminal stream within the coverage area of such a base station, a wireless terminal can transmit data to the base station. Flying another wireless terminal, the system is usually provided with power control of the wireless terminal. For example, it is estimated whether the power level associated with the second wireless terminal and the power level adjustment decision base of the rating machine are suitable for each wireless terminal wireless terminal # & for the phase to each wireless terminal machine疋 control information. However, conventional techniques are used to distinguish 122838.doc 200822589. For each wireless terminal, controlling the beacon can be difficult and/or error prone. In, for example, an orthogonal frequency division multiplexing (system, the power control channel that provides power to the individual wireless terminals can be similar to the power control channel of the Bayer.) Or the plurality of wireless terminals may incorrectly obtain the intentional transmission of the ί decoding via the downlink power control channel; the power of one of the wireless terminals is different, so the change can be changed The power control information is not intended to use the power level associated with the wireless terminal that is intended to be used. In addition, the conventional technology may fail to consider the lack of synchronization between one of the base stations and a wireless terminal. The status of the wireless terminal - according to the example - the base station can transmit information to the wireless terminal to modify - the status associated with the line terminal. However, an error may occur to disable the line terminal According to the transmitted information transition state, and thus, there may be a mismatch between the actual state of the wireless terminal and the state of the wireless terminal that the base station sees. The following is a brief summary of the embodiment or embodiments of the invention in order to provide a basic understanding of the embodiments. The subject matter is not intended to be any limitation, and is not intended to be in any way. One or more embodiments and their corresponding disclosures set forth various aspects of facilitating control - the transmission power of a wireless terminal. - Downlink 122838.doc 200822589 The power control channel segment may include an orthogonal 笄哚. The human scallop multiplex (〇?〇訄) planting _ paying number, which may include a first component and a 1 component. For example, the first t amount may be an in-phase (1) component, and the second component may be The system-two (Q) points; S: can be transmitted in the first component to the Chad to lose a power command. In addition, the transmission in the brother-individual transmission and the convergence of a ... ...green, and winter end machine related information ... invited points, information associated with the line terminals may be based (for example, ^ _.., ^ ', Μ M Λ υ clever as) a portion of the associated scrambling mask with the wireless terminal. Ah

According to the relevant aspect, this paper describes a method for facilitating the control of a power and detection - the disconnection state of the first wireless terminal. The method ^ includes assigning at least one Ν identifier to the first wireless terminal, the at least one ON identifier being associated with a first predetermined subset of transmission units and a first predetermined subset of transmission units. Moreover, the method can include transmitting a power command in at least one of the first transmission unit subsets. The method can also include transmitting information based on a terminal identifier of the first wireless terminal in at least one of the second transmission unit subsets. Another aspect relates to a wireless communication device, which can include a memory that stores a terminal identification associated with a wireless terminal and at least one QN identifier assigned to the wireless terminal, At least one ON identifier is associated with a first predetermined transmission unit subset and a second predetermined transmission unit subset. Additionally, a processor can transmit a power command in at least one of the first transmission unit subsets and transmit information from the terminal identifier in at least one of the second transmission unit subsets. 122838.doc 200822589 The re-state is about a type of information-free device used to verify the identity of a wireless terminal and control the rate of non-secret H-force. The wireless communication device may include a component for assigning a 〇N identification 绊" 'others' to the wireless terminal device. The ON identifier is associated with the squadron. The predetermined subset is associated with a second predetermined subset of the transmission units. Additionally, the wireless communication device can include means for transmitting a power command in at least one of the first transmission unit subsets and for a subset of the second transmission unit

The means for transmitting information associated with the wireless terminal based on the 'terminal identifier' is transmitted in at least one of the transmission units.机器 a machine executable instruction for assigning a -(10) identifier to a wireless terminal, the on identifier being associated with a first subset of the transmission primitives and a second predetermined subset of the ones of the transmission units Union. The machine readable medium; further comprising: machine executable instructions stored thereon for transmitting a power command in at least one of the transmission units and in the second transmission At least one transmission unit in the subset of units transmits information related to the wireless terminal based on a terminal identifier. Another aspect relates to a machine readable medium having stored thereon a processor in a predetermined transmission unit according to another aspect, and a processor is illustrated herein for performing a 〇Ν identifier assignment An instruction for a wireless terminal associated with a subset of the second set and a second predetermined set of transmission units. Further, the process n can execute an instruction to transmit a power command in at least one of the transmission units in the subset of the first transmission unit. Moreover, the processor can execute at least one transmission in the subset of transmission units 122838.doc 200822589 4 early transmission based at least in part on the _ terminal (four) according to another aspect, this document describes a method, Beixun . Terminal specific power control information. The party evaluates the wireless first-first predetermined transmission unit subset and the .receive-configures to the jiujiu-predetermined 偻Private-ON identifier, and receives the unit of the first-transmission unit 隹$兀 subset - a power command, and receiving the second transmission - line =: ΓΓ based at least in part on the information associated with the ... terminal identifier. In addition, the party: the connection associated with the wireless terminal:: comparing the associated information_1#_„1/, the wireless terminal, the phase of the corpse, is adjusted according to the power command. The power level is further related to the wireless communication device, which may include integrally storing an expected end corresponding to a wireless terminal: the machine identification pays a first predetermined transmission a subset of the unit and a (10) identifier associated with the second predetermined transmission unit subset. Additionally, a processor may receive a power command in the at least one transmission unit of the subset of the first transmission unit to receive the second transmission The information based on the terminal identifier in at least one of the transmission units of the unit subset compares the received information with the expected information associated with the expected terminal identifier and adjusts a power level based on the comparison. A wireless communication device for controlling transmission power of a wireless terminal device. The wireless communication device may include: for obtaining a subset of a transmission unit and a second transmission unit a component of the ON identifier associated with the subset; a means for receiving a power command in at least one of the first transmission unit subsets 122838.doc -10 · 200822589; and for receiving the second transmission At least one of the at least one transmission unit in the subset of units is based at least in part on information of a first terminal identifier. Additionally, the wireless communication device can include: for evaluating whether the received information is interrelated with the expected information (which is related to A component associated with the second terminal identifier of the wireless terminal, and means for performing error recovery when determining that there is a lack of correlation between the received information and the expected information.

C is another aspect of a machine readable medium having machine executable instructions stored thereon for obtaining one and a first transmission unit subf and a second transmission unit subset Corresponding ON identifier, receiving a rate command in a range of at least one transmission unit in the first transmission early 7C subset, and receiving at least one transmission list in the second transmission unit subset: Information associated with a terminal identifier. In addition, the:# media may have machine executable instructions stored thereon, and the β is used to determine that the received information associated with the β-first terminal identifier is matched with a second terminal. The machine identifier is associated with the expected information, and an error recovery is performed when the received information fails to match the expected information. According to another sample, the processor is described in the following description, wherein the processor can be used for the following Japanese ★ 、 : : : : : : : : : : : : : : : : : : : : : : : : : : : : : And the at least one transmission unit in the at least one transmission unit in the subset of the first transmission unit and the at least one transmission unit in the subset of the second transmission unit are referenced based on a first Information about the terminal identifier. Moreover, the hacker can order an instruction for comparing the received information associated with the first terminal 122838.doc -11 - 200822589 machine identifier with a second terminal assigned to a wireless terminal. The identifier is associated with the expected information and adjusts a power level based on the power command when the received information corresponds to the expected information. To the accomplishment of the foregoing and <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; Some example aspects of the one or more embodiments are described in detail in the following description and drawings. However, the terms are merely representative of several of the various ways in which the principles of the various embodiments can be utilized. [Embodiment] Now, the same reference numerals are used to refer to the same components in the same way. In the following description, numerous specific details are set forth in the <RTIgt; However, 'obviously' these embodiments can be practiced without the specific details. In other instances, well-known structures and devices are employed in the <RTI ID=0.0> </ RTI> </ RTI> <RTIgt; </ RTI> to facilitate the description of one or more implementations. - The device. - The wireless terminal can be = a laptop or a desktop computer, or it can be -= = knee personal digital assistant (PDA). - User, (1) Unit, - User #, Mobile Station, Mobile Device 2, User Point, Remote Terminal, Access Terminal "End Station 1 Access User Terminal, User Generation 122838.doc • 12- 200822589 Rational, user device or user device. The wireless terminal can be a subscriber station, a wireless device, a cellular phone, a Pcs phone, a cordless phone, a session initiation protocol (SIP) f, a wireless local loop (WLL) station, a number of person assistants (PDA), a A handheld device with wireless connectivity, or other processing device connected to a wireless data processor. A base station (e.g., an access point) can refer to a device in an access network that communicates with a wireless terminal via one or a sector on an empty interfacing plane. Γ The base station can act as one of the routers between the wireless terminal and other portions of the access network (which may include an IP network) by converting the received empty intermediaries frame into IP packets. The base station also coordinates the management of the attributes of the air interface. In addition, various aspects or features described herein can be constructed as a method, apparatus, or article of manufacture using standard stylized and/or engineering techniques. The term "article of manufacture" as used herein is intended to encompass a computer program accessible from any computer-readable device, carrier, or media. For example, a computer-readable medium can include (not limited to) magnetic storage devices (eg, hard disks, floppy disks, magnetic strips, etc.) optical discs (eg, compact discs (CDs), digital versatile discs (DVD), etc. Etc.), smart card and flash memory device (eg, EpR〇M, card, stick, safari, disk, etc.). Alternatively, the various storage media described herein may represent one or more The means for storing information and/or other devices may include, but are not limited to, wireless channels and various other media capable of storing, containing and/or carrying instructions and/or materials. Referring now to Figure 1, there is illustrated a wireless communication system 100 in accordance with various embodiments of the present invention. The system 100 can include a receiving, transmitting, relaying, etc. wireless communication signal to a wireless Base station 102 of terminal 104. Furthermore, it is contemplated that system 100 can include a plurality of base stations similar to base station 1 and/or a plurality of wireless terminals similar to wireless terminal 104. Base station 102 can include One hair The chain and a receiver chain, those skilled in the art will know that both the delta transmitter key and the receiver key may include a plurality of components associated with signal transmission and reception (eg, a processor, a modulator, a multiplexer, a demodulator, a demultiplexer, an antenna, etc.) The base station 1 〇 2 can be a fixed station and/or a mobile station. The wireless terminal 1 〇 4 can be, for example, a A cellular telephone, a smart phone, a laptop computer, a handheld communication device, a handheld computing device, a satellite radio, a global positioning system, a PDA, and/or any other suitable for communication via a wireless communication system Similarly, the wireless terminal set 1 can be fixed or mobile. The wireless terminal 104 can be associated with the base station 102 at any given time on the downlink and/or an uplink channel (and/ Or a separate base station) communication. The downlink refers to the communication link from the base station 102 to the wireless terminal set 1-4, and the uplink channel refers to the communication link from the wireless terminal set 104 to the base station 1200. Base station 102 can be further integrated with other bases And/or any individual device (eg, servant) (not shown) that can perform functions such as authentication and authorization, accounting, billing, etc. of wireless terminal set 1-4 The base station 102 can further include a power controller 1 6 and a wireless terminal verifier 108. The power controller 106 can measure one associated with the wireless terminal set 1 (and/or any individual wireless terminal). In addition to power level 1122838.doc -14-200822589, power controller 1()6 can transmit power commands to the wireless terminal just to facilitate adjustment of the power level. For example, the power controller (10) can be in one A power command is transmitted within the plurality of transmission units associated with the subset of the -th transmission units. For example, the power command may indicate an increase in a power level, a decrease in a power level, a hold in a power level, and the like. When receiving a power command to increase or decrease power, the wireless terminal unit ι 4 can change a fixed (e.g., preset) amount or a fixed increment - associated power level. In addition, the wireless terminal verifier 1 8 can be associated with one or more terminals associated with a second transmission unit subset (four) based on a wireless terminal (eg, wireless terminal 104). Machine identifier information. Moreover, when in the in-session (10) state, __ or more <__ characters may be assigned to each wireless terminal set' and the ON identifiers may be associated with the first subset of transmission units and the second transmission unit Set related. Power control 3 106 can transmit power commands via a τ line key power control channel (DLPCCH). According to an example, when the wireless terminal 104 accesses a session (10) state, resources can be assigned to the wireless terminal device 1〇4 by the base station 1Q2; the resources can include a specific DLPCCH segment, one or an eve ON identification Fu and so on ^ can be controlled by the base station sector attachment point (for example: using power controller) 〇 6) using the DLPCCH to transmit the downlink key power control message to control the Yi start #❿... city wireless terminal The transmission power of the machine 104. Each DLPCCH segment may include a tone within an orthogonal frequency division multiplexing (〇fdm) symbol, such that the carrier includes an in-phase (1) component (eg, a real number) and a: a parent (Q) node (eg, The imaginary symbol value of the imaginary number. In the following, one of the carrier frequencies in an OFDM symbol is referred to as a carrier tone symbol. According to the projection function, each parent in a loop structure - the given DLPCCH segment can point to a seek..., line terminal (eg, green/wireless terminal 104), where The wireless terminal can be identified by an identifier (eg (ON identifier, wt〇nlD, session ON ID) and/or a mask (eg, level (1), eg, Wt〇NMASIg. Power unit 106) A power command can be inserted into a first branch of the transmitted symbol associated with the dlpcch region (your 丨1 (eg, 1 component, Q component, or I column or Q column), due to =1 knives (or Q is 垔) can be carried to the wireless terminal 1〇4 (and /

3. The power control message of the individual wireless terminal is adjusted to correlate the transmission power. The wireless terminal verifier l〇g transmitted by the power controller 106 can transmit the beacon associated with the wireless terminal corresponding to the power brightening. For example, the wireless terminal authenticator (10) can transmit information based on a terminal identifier (e.g., a scramble mask) associated with the wireless terminal (e.g., wireless terminal 112). The wireless terminal verifier 108 can forward the information on the DLPCCH uplink. In accordance with an illustration, information associated with the wireless terminal set 1 can be transmitted to the DLPCCH uplink in conjunction with a subset of the power commands transmitted from the power controller 106. In addition, the wireless terminal verifier 108 can incorporate wireless terminal related information into one of the second components (e.g., q component, j component) of an OFDM carrier tone symbol. For example, the first component can be a component and the second component can be a q component, or vice versa. Although the following description includes the power command by the component and the wireless terminal related information by the Q component, it should be understood that the power controller 106 can utilize the Q component and the wireless terminal ι 8 can employ the I component. A subset of the symbols transmitted by the base station 102 to the wireless terminal set 1 122 4 122838.doc -16- 200822589 (eg, one every eight) may include insertion of the Q component by the wireless terminal validator 108 ( For example, verification information within Q bit). When the base station 102 considers that a wireless terminal (e.g., wireless terminal 104) is not present (e.g., no wireless terminal is associated with a resource such as a session ON ID mapped to the DLPCCH segment), the wireless terminal The machine verifier 108 can set the Q component to 〇. Likewise, when a wireless terminal (e.g., wireless terminal 104) is present (e.g., associated with a resource such as a session ON ID mapped to the DLPCCH segment), the wireless terminal verifier 108 is available at Q. Insert 1 or -1 into the component. The wireless terminal 104 can further include a verification information comparator 110 that evaluates the received information associated with the wireless terminal 104. The verification information comparator 110 can analyze the received information to determine whether the wireless terminal 104 is utilizing resources proposed by the base station 102; thus, the verification information comparator 110 can evaluate the Q component included in the symbol transmitted via the DLPCCH. Information. For example, base station 102 can have an identifier assigned to wireless terminal 104 (e.g., a session ON ID), and verification information comparator 110 can analyze whether wireless terminal 104 is appropriate for association with the assigned identifier. Resources. According to other examples, the verification information comparator 110 determines whether the wireless terminal 104 is utilizing the DLPCCH segment proposed by the base station 102 and/or whether the base station 102 has reclaimed resources previously assigned to the wireless terminal 104 (eg, Period ON ID). Referring now to Figure 2, a system 200 is illustrated that facilitates the use of user-specific information to verify the utilization of information associated with a wireless terminal. System 200 includes a base station 202 and a wireless terminal 204; however, it is contemplated that any number of similar base stations and/or wireless terminals can be additionally utilized with respect to system 200. Base station 202 further includes a unique identification assigner 206. When wireless terminal 204 enters a system associated with base station 202 (e.g., provides a handover request to base station 202), unique identification assigner 206 can assign a scrambling mask to wireless terminal 204. The wireless terminal 204 is distinguished from the distinct wireless terminal associated with the base station 202 (e.g., the wireless terminal associated with the base station 202 in any state) by uniquely identifying the scrambling mask configured by the assigner 206. . The scramble mask can continue to be assigned to the wireless terminal 204 as long as the wireless terminal 204 is associated with a state associated with the base station 202 (e.g., ON, HOLD, SLEEP, SPLIT-TONE ON, etc.). Thus, when the wireless terminal 204 transitions between states (e.g., from ON to HOLD, etc.), the scrambling mask that uniquely corresponds to the wireless terminal 204 is maintained to be assigned to the wireless terminal 204. The scrambled mask can be a sequence of binary values including any number of bits. According to an example, the scramble mask can be 16 bits, however, the subject matter is not limited thereto. The unique identification assigner 206 (and/or the base station 202) can provide the scrambling mask to the wireless terminal 204 during, for example, a handover response. Additionally or alternatively, the unique identification assigner 206 (and/or the base station 202) can provide information (e.g., during a handover response) to the wireless terminal 204 to enable the wireless terminal 204 to obtain the unique scramble mask. The base station 202 and the wireless terminal 204 can maintain a copy of the scrambled mask associated with the wireless terminal 204 in the scrambled mask stores 208 and 210, respectively. It should be understood that the data storage described herein (eg, scrambled mask storage 122838.doc -18-200822589 208, scrambled mask storage 210, etc.) can be either volatile or non-volatile. Sexual memory, or both volatile and non-volatile memory. By way of illustration and not limitation, non-volatile memory may include read only memory (ROM), programmable ROM (PROM), electrically erasable programmable ROM (EPROM), electrically erasable PROM (EEPROM), Or flash memory. Volatile memory can include random access memory (RAM) used as external cache memory. By way of illustration and not limitation, RAM can be in many forms, such as static RAM (SRAM), dynamic RAM (DRAM), synchronous DRAM (SDRAM), double data rate SDRAM (DDR SDRAM), and enhanced SDRAM (ESDRAM). , Synchlink DRAM (SLDRAM) and direct Rambus RAM (DRRAM). The scrambled mask reservoirs 208-210 of the subject systems and methods are intended to comprise, but are not limited to, such and any other suitable type of memory. The base station 202 can additionally include an identification session on one of the schedulers 212. When the wireless terminal 204 accesses a session ON state associated with the base station 202, the session on the identification assigner 212 can assign a duration ON identification (SON ID) to the wireless terminal 204. The SON ID may map certain dedicated resources that may be employed by a corresponding wireless terminal (e.g., wireless terminal 204) when in an inactive ON state. For example, the SON ID can be related to a particular downlink power control channel segment from a set of downlink power control channel segments. According to another illustration, when the wireless terminal 204 transitions from a session ON state to a session HOLD state, the session ON identification assigner 212 can facilitate removal of the assignment of the SON ID to the wireless terminal 204; The wireless terminal 204 can be assigned a SON ID when in session ON and the wireless terminal 204 does not have a SON ID during the duration 122838.doc -19-200822589 HOLD. The session ON identification assigner 212 (and/or base station 202) provides the SON ID to the wireless terminal 204. The wireless terminal 204 can further include a power control channel identifier 214 that utilizes the assigned SON ID to determine the downlink power control channel segment configured for the wireless terminal 204. For example, the base station 202 can support 31 wireless terminals in the ON state; therefore, the power control channel identifier 214 configures a mapping corresponding assignment SON ID from the 31 periodic downlink power control segments. Segmentation. According to another illustration, base station 202 can support 93 wireless terminals in the SPLIT-TONE ON state, and power control channel identifier 214 can similarly determine the configured downlink power control resources corresponding to the SON ID. Although the wireless terminal 204 can utilize the power control channel identifier 2 14 to determine the power control channel resources based on the SON ID, an error can result in a mismatch between the base station 202 and the wireless terminal 204. For example, more than one wireless terminal may consider that they are each assigned the same SON ID; thus two wireless terminals may receive symbols associated with the same downlink power control segment (may be intended for use with such wireless) One or none of the terminals). According to another illustration, base station 202 can transmit a signal to wireless terminal 204 to facilitate transitioning wireless terminal 204 from a session ON to a duration HOLD; however, wireless terminal 204 may fail to obtain the indication. Thus, base station 202 may consider that the SON ID assigned to wireless terminal 204 has been reclaimed, however wireless terminal 204 continues to utilize the SON ID to obtain, for example, power control commands provided by power controller 216 from one of base stations 202. 0 122838.doc • 20- 200822589 The base station 202 additionally includes a power controller 216 and a wireless terminal verifier 218, both of which are capable of transmitting complex symbols via the I and Q components via the DLPCCH. The power controller 216 can divert the power command into a first component (e.g., I-minute, Q component) of the complex symbols transmitted to the wireless terminal set 2〇4 as previously described. The wireless terminal verifier 218 can include verification information in a second component (e.g., in a Q knife, 1 minute). By way of example, the power controller 216 can include the power command in one of the transmission unit components, and the wireless terminal verifier 218 can include the verification information in one of the Q components of the transmission unit (which can also be referred to as For a Q bit). For example, the wireless terminal verifier 21 8 can include Q-bitped data by a subset of the complex symbols passed to the wireless terminal set 2〇4. By way of example and not limitation, the Q-bit data may be included by one of the eight power control symbols directed to a particular wireless terminal by the wireless terminal verifier 218. The scrambled mask stored in the scrambled mask storage state 208 can be utilized by the wireless terminal verifier 218. For example, the wireless terminal verifier 21$ can include a bit from the scramble mask in a power control symbol (e.g., within the Q component). An index value (k) may be associated with the scrambled occlusion to identify a bit position within the scrambling-specific Q component of the scrambling mask assigned to the wireless terminal set 2〇4 (kth) One bit position). The value of the kth bit position of the plus mask (Zk) determines the value of the Q component associated with the complex symbol (eg, Zk=0 corresponds to Q component=1, Zk==i corresponds to Q component =-1). Power controller 216 and/or wireless terminal verifier 218 may utilize information obtained from wireless terminal 204 to adjust the transmission power levels associated with the first and second components 122838.doc - 21 - 200822589. For example, the wireless terminal 204 can measure the noise ratio (SNR) of a signal over a pilot symbol transmitted from the base station 202 at a fixed power, via an uplink dedicated control channel (ULDCCH) from the wireless terminal. The machine 204 reports the SNR to the base station 202. Based on the reported SNR (and assuming that the SNR condition has not changed significantly since reporting), such a power power controller 2 16 may be uplinked to the Q component and/or the wireless terminal verifier 218 may be uplinked to the Q component. The path is received by the wireless terminal 204 at a fixed SNR of 6 dB; however, the claimed subject matter is not limited in this respect. By way of example, if the wireless terminal 204 reports a SNR of X dB to the base station 202, the base station 202 (and/or the wireless terminal verifier 218) can be substantially equal to one pilot plus (6-X) dB. The power of the fixed transmission power is transmitted as a Q-bit symbol. The wireless terminal 204 can further include a verification information comparator 220 that obtains the transmitted complex symbols and compares the Q bits of the transmitted symbols with the information from the scrambled mask stored in the scrambled mask storage 210. The verification information comparator 220 can similarly employ the index value to identify a one-bit location within the saved scrambling mask as the basis for the comparison. In addition, verification information comparator 220 can determine if the received Q bit matches the expected bit from the stored copy of the scrambled mask. Similarly, verification information comparator 220 can identify a subset of symbols directed to wireless terminal 204 that are expected to include information within the Q component. The wireless terminal 204 can also include a power adjuster 222 and an error handler 224. The power adjuster 222 can modify the power level of the wireless terminal 204 based on the received data included in the I component of the complex symbols. Root 122838.doc -22- 200822589 According to an example, when a received symbol lacks Q bit information and when the verification information comparator 204 does not expect to receive the information within the Q component, the power adjuster 222 can change the Power level (eg, increase, decrease, hold at the same level). When the verification information comparator 22 is expected to receive information in the q component, and if the information is missing (eg, indicating that the base station 2 believes that no wireless terminal is occupying the associated DLPCCH resource), the power adjuster 222 may decrease One of the wireless terminals 2〇4 power level. Moreover, when the verification information comparator 220 determines that the received does not match the expected scramble mask bit, the power adjuster 222 can ignore the power command 0 provided within the amount when the received and expected scramble mask bits are received. The error handler 224 can operate further when the elements fail to match. For example, error handler 224 can filter the errors identified by authentication information comparator 220. According to an illustration, the error handler 224 can operate when the verification information comparator 220 identifies a mismatch. According to another example, the error handler 224 can perform further when at least n errors are identified in the measurement (eg, a threshold number of errors are identified over time) (where Ν &amp; Μ can be adjusted) action. The error handler 224 can also be enabled to independently evaluate each bit of a scrambled mask; thus, as an example, if the scrambled mask includes 16 bits, it can be evaluated independently of the other 15 bits. The first bit (and/or any individual bit) of the scramble mask (eg, a Ν error in the measurement associated with the first bit) so that the error handler 224 can detect the error State (where the bit at a particular bit position within the scrambled mask has continued to be erroneous). This may occur if the base station 202 uses a scrambled mask and the wireless terminal 204 uses the scramble mask B and the scramble masks a and B are different from each other at the location of the particular bit 122838.doc -23-200822589 Error status. The error handler 224 performs any type of action in response to the identified mismatch between the received and expected bits associated with the scrambled mask. For example, error handler 224 can facilitate undoing a link between wireless terminal 204 and base station 202; thereafter, wireless terminal 2〇4 can be reconnected to base station 202. According to another illustration, the error handler 224 can result in a state transition for the wireless terminal 204 from the instalment to the instalment HOLD. Correspondingly, the wireless terminal 204 can silently transition to the instalment HOLD or the wireless terminal 204 can initiate a state transition of a period HOLD (e.g., by transmitting a state transition request to the base station 2〇2). In response to the wireless terminal 2〇4, which is deemed to be in the HOLD period, receives a request for a transition from the duration of the session to the duration of the session, the base station 202 grants the request to remove the mismatch. Similarly, although not shown, it should be understood that base station 2〇2 can initiate a state transition for wireless terminal 204. Turning to FIG. 3, an illustrative star diagram 300 associated with a plurality of symbols that can be received via a downlink power control 1 channel is illustrated. By way of example, the received complex symbols can include noise, interference, and the like. It is to be understood that the subject matter is not to be construed as limited The complex symbols include - in-phase (1) and 正交 (Q) components. A power command can be provided in the component and information associated with a wireless terminal can be included in the Q component. Symbol 302 can be associated with a power command to increase a power level. The symbol 3〇4 can be associated with a power command that the right person maintains &amp; X force rate level. The symbol 3〇6 can be associated with a power command that is intended to reduce the 1 force level. In addition, the symbols followed by DLpccH segments that do not include Q-bit information can be transmitted via 122838.doc -24- 200822589. When the symbol 3G2, the outline and the middle are received, the wireless terminal can change the following:: level. According to another example, when a base station considers that no corresponding resources are assigned to any of the machines (for example, with one (10)

In the case of WID), the 黯CH component associated with the -Q bit can be used in the schedule = the payment number 304. Correspondingly, if a wireless terminal receives the symbol 3G4 ′ under the expected Q position, the wireless terminal can recognize that the base has reclaimed the configured resource and thus the wireless terminal can transition to the session hold, terminating one to Base station connection and so on. Symbol 308 can be associated with a power command to reduce a power level, and the bit from the -scrambling mask includes the component. Thus, the verification information can be encoded within the power control information and utilized as described above. As shown in the figure: the symbol (4) has a large amount of energy on the axis of correction; therefore, the symbol 31〇 3 is associated with a large amount of interference and can therefore be unreliable (for example, if the sand amount information is not specifically expected). Accordingly, power control commands within the I-knife associated with symbol 310 may be ignored. According to another illustration, if it is determined that the symbol 310 is 莽, it can be determined that the j component is (10) if the power level is adjusted downward - a predetermined increment) 'this is because the value in the I component is less than _1/ 2; however, the subject matter claimed is not limited to this. Referring now to Figure 4, there is illustrated a system for verifying the identity of a wireless terminal that utilizes downlink power to control channel related resources. The system 4 includes a network σ 402, a wireless terminal J 4〇4, and a wireless terminal 2 4〇6. The base station 4G2 may include a power controller as described above and a wireless terminal authenticator 41G. In addition, the wireless terminal set 4() 4 and the wireless terminal 122838.doc -25-200822589 machine 2 406 can respectively include a verification information comparator 412 and a verification information comparator 414 similar to those described above. Additionally, wireless terminal 1 404 can be associated with scramble mask A and wireless terminal 2 406 can be associated with scramble mask B, where A is different from B. According to an example, wireless terminal set 1 404 and wireless terminal set 2 406 can simultaneously decode the same DL PCCH segment. Both wireless terminal 1 404 and wireless terminal 2 406 can be considered to have the same SON ID (e.g., both decode DLPCCH segments associated with the same SON ID). For example, one of the wireless terminals may have erroneously determined an associated SON ID, failed to obtain a base station transition request from the period ON to the instalment HOLD, and incorrectly decodes a base station command. To transition to the session ON state, or the like. The base station 402 can transmit a power command within the I component of a complex symbol by using the power controller 408 and transmit the correct wireless terminal in the Q component of the complex symbol via the wireless terminal verifier 410. Verify the information. Assuming that the wireless terminal 1 404 is properly utilizing the SON ID and associated resources, the wireless terminal verifier 410 can transmit one of the scramble masks A within the Q component associated with the separate DLPCCH segment. Thus, verification information comparators 412 and 414 can compare the received information within the Q component with the scrambling mask uniquely assigned to each wireless terminal to determine if the resources are being utilized correctly. In accordance with this illustration, wireless terminal 1 404 can determine that the received match with the expected scramble mask bit and thus continue to utilize the received power command. Moreover, since the scramble mask A is being transmitted and the scramble mask B is being assigned to the wireless terminal 2 406, the wireless terminal 2 406 can determine that there is a 122838 between the received and expected scrambled mask bits. .doc -26- 200822589 Mismatch; thereafter, the wireless terminal 2 406 can stop the connection with the base station 4〇2 to transition to the HOLD and the like. It should be understood that the scrambled mask a and the scrambled mask B may have any number of similar and/or different bits. Consider an exemplary OFDM system in which the radio resources successively comprise a series of OFDM symbols. An OFDM symbol contains a number of carrier tones (also known as subcarriers). In a given OFDM symbol, each carrier tone (referred to as a carrier tone symbol) can be used to transmit a complex number that can carry certain messages. For example, the number of carrier frequency adjustments can be 113. In addition, one embodiment of the signal structure of one of the series of OFDM symbols is considered. In particular, the series of OFDM symbols are divided into a number of ultraslots. Each superslot includes 18 beaconslots with indices 0 through 17, and each beacon slot includes eight superslots with indices 〇 to 7. For the downlink, each trough includes a header (H) and 16 subsequent halfslots with indices 0 through 15. The trough slot header spans two symbol periods, each half slot spanning 7 symbol periods, and each trough slot spans 114 symbol periods. The half slots in a special slot can be indexed in 升, 1, ..., 15 in an ascending order. The variable index is expressed as an ndl extra slot half slot index n (dlSuperslotHalfslotlndex). A base station can transmit traffic data, communications, and/or pilots in each symbol period of each slot. Each OFDM symbol within a superslot can be indexed in increments of 0, 1, . . . , 16415. The variable index is denoted as "dl Superslot OFDM Symbol Index" (dlUltraslotOFDMSymbolIndex). Referring to Figure 5, an example of a downlink power control channel (DL.PCCH) segment (e.g., segmentation 502, etc.) is described. The DL.PCCH frequency 122838.doc -27- 200822589 channel can be used to transmit downlink (DL) power control messages to control the wireless terminal (WT) transmission power. In a given base station sector, the DL · The PC CH channel can include 4 carrier tones in 7 slots. The 4 carrier tones are continuous in the logical domain. In other words, in a relay system, the group of 4 carrier tones can be mapped to another 1. Group of four carrier frequency adjustments (which may potentially be discontinuous). In any special slot, the value of the dlSuperslotHalfslotlndex of the seven half slots is equal to 2*k+l (k=0:7, except for k=kO) Where k0 is a system parameter.) A DL.PCCH channel parameter (eg 'segment 5〇2') may be included in a carrier tone symbol. There are 28224 DL.PCCH segments in a superslot. For s=0:28223, the DL.PCCH channel segmentation [s] can be defined as follows. In a super slot, &lt; first with &q Uot; dlUltraslotOFDMSymbolIndex&quot; is an ascending index of the DL.PCCH segments, and secondly, the DL.PCCH segments are indexed in ascending order for the logical carrier index of the same index of the same ndlUltraslot 〇 FDMSymbolIndexn. In particular, The carrier tone tone index of the first OFDM symbol in the first half slot is equal to 〇. The carrier tone symbol can be used as the DL.PCCH segment [0], and the carrier tone index is equal to 1 to 3 in the same OFDM symbol. The tone symbols can be used as DL.PCCH segments [1], [2], [3], respectively. Then, the carrier tone index is equal to 0 to 3 carrier frequency symbols in the second OFDM symbol of the same half slot. Can be used separately as DL.PCCH segments [4], [5], [6], [7], etc. Therefore, 1568 DL.PCCH segments can be included in each beacon slot. There may be 196 DL.PCCH segments in each of the slots in the slot. In a special slot, the DL.PCCH segments may be present in seven half slots. Each of the slots may be There are 28 DL.PCCH segments. 122838.doc -28- 200822589 When a wireless terminal is connected to the base station (sector), specifically when the wireless terminal is connected In the ON state, a subset of the DL.PCCH segments can be assigned to the wireless terminal. In the ON state, the wireless terminal is assigned an ON identifier (denoted as wtOnID) and other ON identifications. (for example, wtONMASK). In various embodiments, the DL.PCCH segmentation subset assigned to the wireless terminal is determined by the ON identifier of the wireless terminal. There are two implications. First, different wireless terminals use disjoint DL.PCCH segmentation subsets because they are assigned different ON identifiers. Second, after the ON identifier has been discarded, for example, because the previously assigned wireless terminal exited the ON state, it is desirable that the base station assigns the ON identifier to another wireless terminal to reduce the ON identification. Idle time to increase the utilization of these DL.PCCH segments. However, this fast switching can lead to robustness issues. For example, due to, for example, a communication error, the base station may consider that the first terminal has abandoned the ON identifier, but the first terminal may consider itself still having the ON identifier. Then, the two terminals think that they have the ON identifier, which is a harmful disconnection situation. To address this robustness issue, a terminal is assigned an identifier for uniquely identifying the terminal. The identifier can be a scrambling mask, a MAC ID, a network protocol (IP) address, or some other type of ID. In the embodiment to be explained in detail below, the terminal identifier is given by a scrambling mask denoted as wtScramblingMask (with a scrambled mask). In general, depending on how many scrambling masks are assigned for a 122838.doc -29- 200822589 single base station, the terminal's scrambling mask can be based on the source I::::::, the terminal identifier It may not be the same as the radio resource i (4). Therefore, the terminal identifier is not a rare resource, and the sound difference L of the right relatively large length has a meaning. In an embodiment, each of the squats, when the terminal machine has a static terminal identification, does not change when another shank is moved from * σ to the other. 'When the terminal is connected to the base station, it will be removed from the ground. In this case, the base station's evaluation of the base announces the use of a given terminal ... and 焱 σ and fine machine identification. For example, after the end identifier, 'the same terminal identifier does not use the remote cut', the base station can maintain the terminal identification segment (for example, one minute) to ensure that the first terminal 2 = terminal Machine identifier. Therefore, minimizing the probability that both terminals are 5 have the same terminal identifier. According to various aspects, information related to the terminal identifier is transmitted together with the periodic power control commands in a DL.PCCH segment subset of the ON identities of the predetermined wireless terminal. The DL.PCCH segment can be directed to a particular wt that maps the assigned resource (e.g., 'wt〇nID, wtONMASK). Each dl pccH segment can carry two pieces of information 'ie component (respectively in-phase component and quadrature component respectively)' which can be as follows: I 1 component can include the DL power control message, which instructs the wt to adjust its transmission power . If the base station subsystem (bss) commands the WT to reduce (or increase) its transmission power, the component can be set to -30-122838.doc 200822589 to -ι (or 1). If the BSS commands the WT to keep its transmission power unchanged, the I component can be set to 〇. The Q component can be set to 〇, except for the following cases: if the WT to which the DL.PCCH is directed is valid (eg, the on identifier associated with the DL.PCCH segment is being used by a wireless terminal) The q component can be set to 丨 or 丨, for example, based on the terminal identifier of the wireless terminal (which is assigned the corresponding 〇 &gt; 1 identifier). In a embodiment, a predetermined subset of DL.PCCH segments associated with only a given ON identifier is intended to set the Q component to 1 or -1. The index of the DL.PCCH segments is denoted by S, so s=〇,...,28223. In an embodiment, the Q component can be set to [or - 丨 when the modulus (s, 8) is equal to 〇, in this case only up to 1/8 of the DL.PCCH segments can be sent Non-zero q component; however, the claimed subject matter is not limited thereto. If the WT does not exist for a given 〇N identifier, the Q component of all DL.PCCH segments can be set to zero. The value of the Q component (e.g., 1, -1) can be determined based on a sequence associated with a terminal identifier unique to each WT (e.g., a scrambling mask) when the WT is present. For example, Zk may be the kth bit in the binary expression of the WT scrambling mask (eg, wtScramblingMask), where k=0: 15 and Zls is the highest bit (MSb) and the Z is the lowest Bit bit (LSb). To continue the above embodiment in which 1/8 of the DL.PCCH segments are used for non-zero q components, in this embodiment, when the modulus (s, 8) is equal to 〇, the DL.PCCH segment [ s] may have a Q component set to 1 or ·1, which defines the variable

X=mod(15-floor(s/8/D),16), and if Ζχ is equal to 〇, the Q component of the DL.PCCH segment [s] can be set to 1, and if Ζχ is equal to 1, the DL. PCCH sub-122838.doc -31- 200822589 The Q component of the segment [S] can be set to zero. Here, D is a system parameter, for example, D=31 or 93. The BSS can set the coded modulation symbol to (I, Q), where I and Q are the values of the I and Q components, respectively. In addition, the BSS may perform a hopping mapping operation to modulate the complex symbol (I, Q) to a specified frequency carrier tone in a predetermined OFDM symbol according to some hopping mapping function. When the WT is in the ON state, the following operations associated with power control can be employed. The BSS may transmit the DL Power Control message to the WT in the subset of the DL.PCCH segments that assigned the ON identifier of the WT. The WT can receive its DL.PCCH segments for power control information and adjust its transmit power based on the received DL power control messages. The WT can receive the power control message from the I component of the DL.PCCH segment. The BSS may also measure the signal quality of the UL signal (e.g., the uplink dedicated control channel (UL. DCCH)) received by the WT and determine the power control information to ensure that the signal quality satisfies the indicator. The WT can also receive the Q component of the DL.PCCH. If the WT detects: in the DL.PCCH segment in which the Q component should be set to 0, the received Q component contains a large amount of energy, then the WT can consider the DL.PCCH segment to be unreliable and also abandon the I Component. This Q component can also be used for status confirmation. If during the status confirmation, the received Q component does not match the WT's scrambling mask (e.g., wtScramblingMask), the I component can be interpreted as a command to reduce the transmission power of the WT. It is also possible to perform status confirmation when the WT is in the ON state. When a DL.PCCH segment is to be transmitted, the BSS can determine the Q of the DL.PCCH segment by 122838.doc -32-200822589. The WT may receive the Q component of the DL.PCCH segment dedicated to the WT and compare the received value of the Q component with the corresponding bit of its wtScramblingMask. If the two match, a match indicator can be set to X = 〇; otherwise if the received value of the Q component does not match, the match indicator can be set to X = 1. The match indicator X is used to measure the extent to which the received Q component matches the wtScramblingMask of the WT as described below. The WT can maintain an internal variable γ. When the WT enters the ON state, the WT can set Y=0. After the WT determines a new X, the WT can update Y by using a first-order low pass filter as follows: Y = alpha * X + ( 1 - alpha) * Υ, where the parameter alpha is set to 1/8192. The WT can then compare the new Y with a threshold parameter T = l - (l - alpha) m, where m = (onDropTimer / 11.4) * (196 / 248). The parameter onDropTimer is a value measured in milliseconds and passed to the WT in the upper layer protocol. If the new γ does not exceed the threshold T, the WT can suppress any further action. Otherwise, the WT silently discards its wtActivelD, wtOnID, wtOnMask and migrates to the NULL state of the BSS. Thereafter, the WT can again migrate to the ACCESS state of the BSS. Referring to Figures 6-8, a method for complying with wireless terminal verification is provided for inclusion of wireless terminal specific information in a Q component of a complex symbol transmitted via a downlink power control channel segment. Although the methods are shown and described as a series of acts for the sake of simplicity of the description, it should be understood and appreciated that the methods are not limited by the order of the acts, which are in accordance with one or more embodiments. It may be performed in an order different from that shown and described herein and/or concurrently with other acts. For example, it will be understood and appreciated by those skilled in the art that a method can alternatively be represented as a series (e.g., in a state diagram) of interrelated states or events. Further, all of the illustrated operations may not be required when constructing a method in accordance with one or more embodiments. Referring to Figure 6, a method 600 is illustrated that facilitates controlling the transmission power of a wireless terminal and detecting its disconnected state. At 6〇2, at least one ON identifier can be assigned to the wireless terminal. For example, the ON identifier can be associated with a subset of the -th predetermined transmission unit and a subset of the second predetermined transmission unit. It should be appreciated that the first predetermined subset can include the second predetermined subset. Moreover, the first predetermined subset can include up to N times the transmission unit of the second predetermined subset, where N can be any integer (e.g., eight). At 604, a power command can be transmitted in at least one of the first transmission unit subsets. The power command can be used to increase the power level, decrease - power level, hold at - power level, and the like. In addition, the power command to be transmitted can be determined based on an evaluation of the measured power level associated with the wireless terminal. Correspondingly, a (line terminal specific power life ♦ can be included in the first component of one of the transmission units. For example, the first component can be in-phase (1) component and a 1: (Q) component The downlink power control channel segment may include a carrier-shifted symbol value of the carrier-modulated symbol value, wherein the I component that may be combined with the symbol value includes the power command. The second transmission unit subset - the transmission unit transmits information based on the terminal (four) associated with the wireless terminal. The information may include a terminal identifier 122838.doc associated with the wireless terminal. 34· 200822589 (eg, a portion of a 'scrambled mask'. For example, the scrambled shadow may uniquely correspond to the wireless terminal and, thus, facilitate verification of the identity of the wireless terminal. According to another illustration, The information can be included in a second component (eg, an orthogonal (Q) component, an in-phase (1) component). According to an illustration,

One bit of the scramble mask can be inserted into a Q component for the symbol transmitted via the downlink power control channel. Additionally, information associated with the wireless terminal can be transmitted by the subset of transmissions of the power commands (eg, one of the N power command transmissions can be associated with transmitting information associated with a wireless terminal) , where N can be any integer). Turning to Figure 7, a method is illustrated that facilitates selecting a message to be entered into a symbol transmitted via a downlink power control channel resource. At 702, the power level associated with a lineless terminal is measured. For example, the wireless terminal can periodically uplink to a measurable uplink channel (e.g., a dedicated control channel (DCCH)). In addition, similar measurements can be made on any number of wireless, end-of-line systems within a system associated with a base station sector. At 7:4, it is determined whether the authentication information is transmitted within 7G of a specific transmission. For example, if a particular transmission sequence 7 is included in a subset of the _ transmission list (which is associated with the _configuration to the (10) identities of the wireless terminal), the method 7 继续 can continue. At the manuscript, ^ uniquely identify the terminal identifier of the wireless terminal (for example, the interference mask) suspected to turn a single element. By using the power control information from the user's special &amp;

Reduce the mismatch between the wireless terminal and the base A &quot; The bit can be selected based on the index value, '曰 one bit position (kth bit position) within the scrambling mask) from 122838.doc -35- 200822589. The value of the kth bit of the scrambling mask assigned to the wireless terminal (6) can be selected. For example, the scrambling mask internal value bit location can be based on a particular transmission unit. At 708, a power command based on the measured power level can be transmitted in an in-phase component. The power command can be transmitted during the association of the -downlink power control segment with the resource assigned to the measured wireless terminal with respect to the power command. At 710, the bit from the scrambled mask can be transmitted in a quadrature component. Thus, a verification message can be provided along with the power name to facilitate the provision of power command information to the wireless terminal for which the information is intended to be used. Reference is now made to Fig. 8, which illustrates a method _ that facilitates evaluation of wireless terminal specific power control capabilities 802 provided via the next (four) way power control channel 'can be completed about whether or not it is expected to be obtained with a wireless terminal The decision of the information associated with the machine. For example, the -ON identifier can be received and/or evaluated, and the 〇Ν identifier can be associated with a subset of the -first predetermined transmission and a subset of the second predetermined transmission unit. If the renewal is expected, then method 800 continues to 804. (4) Four places, wherein a power command is received in at least one transmission unit of the first transmission Cuiyuan subset. For example, the power command can be received within a quantity. The first component can be, for example, an in-phase (1) component (and or an orthogonal (Q) component). At _, the at least one of the second transmission unit subsets receives information based at least in part on a terminal identifier of a wireless terminal. The information can be obtained in the second component. By way of example, t: the:: component can be a quadrature (Q) component (and/or an in-phase (1) component). Because:;; 122838.doc -36- 200822589 obtain information associated with the wireless terminal within one of the Q components of the received modulation symbol. Additionally, the information associated with the wireless terminal can be part of a scramble mask associated with the wireless terminal. At 808, it may be determined whether the received information associated with the wireless terminal matches the expected information. Each received value can be compared to a corresponding expected value. Thus, a portion of the scrambled mask included in the second component can be a portion of the mask that is scrambled by one of the wireless terminals. In addition, the decision can take into account the difference in the number of thresholds over time. For example, if the N times expected in the measurement are different from the received values (where Ν and Μ can be any integer value (and can be dynamically adjusted)), the received information may be considered as not matching. Expected information. According to another illustration, each bit of a scrambled mask is independently evaluated; thus, one of the expected scramble masks may be corresponding to the first bit (eg, information that may be periodically obtained) One bit is compared to the information received. By independently analyzing each of the scrambling masks, if it is determined that the one-bit element does not match with a certain level of deterministicity, then it is determined that the received information does not match the expected information. If it is determined that the received information matches the expected information, then method 8 continues to 810. At 810, a power level can be adjusted according to the power level command. Thus, the power level can be increased or decreased, or can be maintained at one level. If it is determined at 808 that the received information does not match the expected information, then method 800 continues to 812. At 812, error recovery can be implemented: for example, the wireless terminal can terminate the connection with the base station. Alternatively = or or, the wireless terminal can be changed from a temporary state to a meeting state. It should be understood that this transition can be initiated by the base station and/or the no-line terminal. It should be understood that 'in accordance with one or more of the aspects described herein, the inference can be made, the inclusion, and/or evaluation of the wireless command information encoded by the downlink power control frequency. Terminal related assets § “The wording used in this paper, infer4 inference, the large system refers to the group observations obtained by events and/or data to derive or infer systems, soils and/or The process of the state of the user. For example, the inferred CI is used to identify the following or action, or a probability distribution of the state can be generated. The inference can be probabilistic, that is, based on the data and events Probability distribution of states of interest. Inference can also refer to techniques used to construct t-high-order events from a set of events and/or data. Such inferences can result in new constructs from a set of observed events and/or stored event data. An event or action, whether or not such event is related in the form of time immediately, and whether the event and information are from one or from several events and sources of information. By way of example, one or more of the methods provided above can include making an inference about selecting when or how to associate information associated with a wireless terminal in a Q component. As a further illustration, it can be inferred that within a q component Whether the information matches the expected information. In addition, it can be made as to whether a received symbol is unreliable and therefore should be ignored as a result of a large amount of energy on the Q axis. It should be understood that the above examples are exemplary and not intended. The manner in which the inferred quantities can be made or inferred in conjunction with the various embodiments and methods or methods described herein. Referring to Figure 9, an exemplary embodiment of the various configurations 122838.doc-38 is constructed in accordance with various aspects. - 200822589 A letter system 900 (eg, a cellular communication network) that includes a plurality of nodes interconnected by a communication link. Nodes in the example communication system 9 are based on communication protocols (eg, the Internet) Network Protocol (IP) signals (eg, messages) exchange information. For example, the system 900 can be constructed using wires, fiber optic cables, and/or wireless communication technologies. Communication link. Example "System 900 includes a plurality of end nodes 944, 946, 944, 946, 944", 946", which communicate via a plurality of access nodes 940, 940, 940, 9. End nodes 944, 946, 944, 946, 944,, 946, may be, for example, wireless communication devices or terminals, and access nodes 94〇, 94〇, 940&quot; For example, a wireless access router or base station. The example communication system 900 also includes a number of other nodes 9〇4, 9〇6, 9〇9, 91〇, and 912 for providing interconnectivity or for providing specific services or functions. In particular, the example communication system 900 includes a server 〇4 for supporting the transfer and storage of sorrows with respect to the end nodes. The server node 〇4 can be an AAA server, a context transfer server, a server including both AAA server functions and context transfer functions. The example communication system 900 depicts a network 9 2. The network 〇2 includes a server 904, a node 906, and a home agent node 909, a server 904, and a section.

The '940, 940, and Lianhai network nodes are further provided to the plurality of access nodes 94〇, 94〇, 122838.doc • 39-200822589 via the network links 941, 941· respectively, respectively An access node 94A, 940, 940&quot; is depicted as being provided to (944, via respective access links (945, 947), (945, 947,), (945, 947,,), respectively. 946), (944, 946,), (944 &quot;, 946") connections. In the example pass system 900, each access node 940, 940, 940&quot; is depicted as using wireless technology (eg, Access is provided by the wireless access link. The radio coverage area (e.g., communication cellular cells 948, 948, and 948) of each access node 940, 940', 940" is illustrated as a surround corresponding storage, respectively. Take the circular area of the node. The κ 性 通 9 9 9 9 9 被 被 被 被 被 被 被 被 被 被 被 被 被 被 被 被 被 9 9 9 9 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 Number and type of network nodes, number and type of access nodes, end nodes The number and type, the number and type of servers and other agents, the number and type of links, and the interconnectivity between nodes may be different from those of the example communication system 9 depicted in Figure 9. The functional entities depicted in the example communication system () can be omitted or combined. Similarly, the location or placement of functional entities in the network can be changed. Figure 1 〇 illustrates an example end node associated with various aspects 1000 (eg, a mobile node). The example end node 1000 can be a device that can be used as any of the end nodes 944, 946, 944, 946, 944, 946, depicted in FIG. As depicted, the end node 1A includes a processor 1〇〇4 coupled by a busbar 1006, a wireless communication interface 1030, a user input/output interface 1040, and a memory 1〇10. Therefore, each component of the end node 1 can exchange information, 122838.doc -40-200822589 signals and data via the bus bar 1〇〇6. The components of the end node 1000 are 1004, 1〇〇6, ι〇ι〇 , 1030, 1040 are located in a housing ι 2 . The line communication interface 1 030 provides a mechanism by which internal components of an end node can transmit and receive signals to and from external devices and network nodes (eg, access nodes). The wireless communication interface includes, for example, a receiver module 1032 having a corresponding receiving antenna 1036, and a transmitter module 丨〇34 having a corresponding transmitting antenna 103 8 for coupling the end node 1000 (eg, via a wireless communication channel) To other network nodes. The K exemplary end node 1000 also includes a user input device 1 42 (eg, a keyboard) and a user output device 1044 (eg, a display) coupled to the busbar 1 through the user input/output interface 1040. . Therefore, the user input device 1042 and the user output device 1〇44 can exchange information, signals and data through the user input/output interface 1040 and the bus bar 1006 with other components of the end node 1〇〇〇. The user input/output interface 1〇4〇 and associated devices (eg, user input device 1〇42, user output device 1044) provide a mechanism by which the user can operate the end node 1〇〇〇 to perform various tasks. . Specifically, the user input device 1 42 and the user output device 1044 provide an application (eg, a module, a program) that allows a user control node 1 and a memory 1010 executed in the end node 1000. , routines, functions, etc.). The processor 1004 can be under the control of various modules (eg, routines) included in the memory cartridge, and can control the operation of the end node 1 to perform various signal transmission and processing described herein. . The modules included in the memory 1010 are executed at startup or when called by other modules. When executed, the modules such as 122838.doc •41- 200822589 can exchange data, information and signals. These modules can also share information and information when executed. The memory 1010 of the end node 1000 can include a signal transmission/control module 1012 and a signaling/control data 1014.

Signaling/control module 1012 controls the processing of signals (e.g., messages) for receiving and transmitting management, storage, and processing of management information. The signaling/control data 1014 includes status information such as, for example, parameters, status, and/or other information regarding the operation of the end node. In particular, the signaling/control data 1014 can include configuration information 1 〇 16 (e.g., end node identification information) and operational information 1 〇 18 (e.g., information regarding current processing status, pending response status, etc.). The signaling/control module 1〇12 can access and/or modify the signaling/control data 1〇14 (e.g., update configuration information 1016 and/or operational information 1〇18). The memory 1010 of the terminal 1000 may also include a comparator module 1046, a power regulator module 1048 and/or a fault handler module 1〇5〇. D is not depicted 'but should be understood' than the car father for the module 1 〇 4 6, power adjustment 5 | module 1048 and / or error handler module 1 〇 50 can store and / or retrieve memory ίο ίο Store the information associated with it. The comparator module 1 〇 46 can evaluate the received information associated with the end node 1000 and implement a comparison with the expected information. Additionally, the comparator mode stage 46 can be similar to the verification information comparator 220 of FIG. The power regulator module 1 48 can implement a modification of the power level associated with the end node 1000 and can be similar to the power conditioner 222 of FIG. The error handler module 110 can be enabled to respond to an identified error condition identified by the use of the comparator module 1046 and can be similar to the error handler 224 of FIG. 122838.doc -42- 200822589 Figure 11 provides an illustration of one of the example access nodes 1100 constructed in accordance with various aspects described herein. The example access node 11 can be used as a means for any of the access nodes 94A, 94A, as depicted in FIG. The access node 1100 includes a processor 1104, 5, a network 1110, a network/internet interface 1120, and a wireless communication interface 1130 coupled together by a bus 1106. Thus, the various components of the access node 11 can exchange information, signals, and data via the bus 1106. The components 1104, 11〇6, 111〇, 1120, 113〇 of the access node 11〇〇 may be located in the housing 11〇2. The network/internet interface 112 provides an organization in which the internal components of the access node 11 can transmit and receive signals to and from external devices and network nodes. The network/internet interface 112 includes a receiver module 1122 and a transmitter module 1124 for coupling the access node 1100 (e.g., via copper or fiber optic lines) to other network nodes. The wireless communication interface 113 also provides a mechanism by which internal components of the access node 1100 can transmit and receive signals to and from external devices and network nodes (e.g., end nodes). The wireless communication interface 1130 includes, for example, a receiver module 1132 having a corresponding receiving antenna, and a transmitter module 1134 having a corresponding transmitting antenna 138. The wireless communication interface 113 can be used to consume the access node 1100 to other network nodes (e.g., via a wireless communication channel). The processor 11 under various module controls included in the NMOS system 111 controls the operation of the access node 1100 to perform various signal transmission and processing. The module included in the memory 1110 can be executed at startup or with other module calls that may exist in the memory 1110. When executed, these modules can exchange data and data. When executed, the modules can also share the data 122838.doc -43- 200822589 and: In the case of I, the memory lii of the access node u can include a singular module 1112 and a signal. Send/control module. Corresponding to each of the modules, the memory 1110 also includes state management data 1113 and k 虎 tiger transmission/control data 1 1 1 5 . The state official module 1112 controls the processing of signals stored and retrieved by the self-end node or other network nodes. The status management data 1113 includes, for example, information about the end nodes, such as a state or state portion, or the location of the current end node state (if stored in some other network node). The grievance module 1112 can access and/or modify state management information 1113. The signal transmission/control module 1114 controls the back and forth of the end node through the wireless communication interface 1130 and the network/internet interface 112 to and from other network nodes, which are necessary for other operations such as basic wireless functions, network management, and the like. The processing of the signal. The signal transmission/control data 丨丨丨5 includes, for example, end node related information about the basic operation of the wireless channel assignment, and other network related information, such as the address of the support/management server, for basic network communication. Configuration information. The signaling/control module 1114 can access and/or modify the signaling/control data 1115. The memory 1110 can additionally include a unique identification (ID) assignor module 1140, an ON identification (ID) assigner module 1142, a power controller module 1144, and/or a wireless terminal (WT) validator. Module. It should be appreciated that the unique ID assigner module 1140, the ON ID assigner module 1142, the power controller module 1144, and/or the WT validator module 1146 can store and/or retrieve associations stored in the memory 1110. data. In addition, the unique ID assigner module 122838.doc -44 - 200822589 1140 can configure a terminal identifier (eg, a scramble mask) to a wireless terminal and can be uniquely identified as described above. . 〇N 1〇 The dispatcher module 1142 can assign an ON identifier to the wireless terminal when a wireless terminal is in the session 〇N state. Similarly, the 〇N m assigner module 1142 can be similar to the session 〇N identification assigner described above. The power controller module 1144 can be similar to the power controller described above and can transmit power control information to a wireless terminal. The WT verifier module 1146 can be similar to the wireless terminal validator described above and can be configured to include wireless terminal related information in a transmission unit. More... Figure 12 illustrates a system for verifying the identity of a wireless terminal and controlling its transmission power. It will be appreciated that the system pair is represented as including right-hand functional blocks, which may be functional blocks representing functions performed by a processor, software, or combination thereof (e.g., firmware). The system (10) can be implemented in a base station and can include a logic module for assigning a (10) identifier to a wireless terminal 1202. For example, the (10) identifier can be the duration ON ID described above. Additionally, the 〇N identifier can be associated with a first predetermined subset of transmission units and a second predetermined subset of transmission units. In addition, system 1200 can include a logic module for transmitting a power command in at least one of the first transmission unit subsets, by way of example, in a first point associated with the transmission unit The power command is transmitted in 篁 (eg, in-phase (1) component, quadrature (9) component). The H2GG may comprise a logic module (4) for transmitting information based on the -end machine identifier associated with the wireless terminal in a /transmission unit/transport unit. According to an example, the wireless terminal related 杳4, δ L may be included in a second component associated with the transmission unit (for example, 〇 旦 τ, &lt; 弟Q刀, ρ knife amount). Therefore, for example, a separate branch (^丨^ T\ ^ w ' is a quantity, a Q component) is used to transmit each type of data, and the power command can be transmitted in the transmission unit and the wireless terminal is related to the broadcast. . Moreover, the terminal identifier can be a scramble mask. _ = ",, Figure 13, which illustrates a system 1300 that facilitates controlling the transmission power of a wireless terminal. As shown, system 1300 includes a number of devices that can be represented by a processor, to a sneaker, or The system 1300 can be implemented in a wireless terminal and can include a subset of the first transmission unit and a second transmission unit. The logical module 13〇2 of the associated ON identifier. For example, the (10) identifier may be a session 0N ID, a valid ID, and the like. Further, the obtained: ON identifier may map the first transmission. a subset of cells and/or a subset of the second transmission sequence 7L. The system i 3〇〇 may also include a logic mode for receiving a power command in at least one of the first transmission unit subsets = 1304 The power command is obtained as an example of a first component (eg, 'I component, q component) associated with the transmission unit. Further, system 1300 can include a logic module 13〇6 for At least one transmission unit in the second transmission unit subset Receiving information based at least in part on a first terminal identifier. For example, the first terminal identifier may be a first scrambling mask utilized by the base station, and the received information may be one or a plurality of bits from the first-scramble mask. The received information may be included in one of the second components (eg, Q component, component) of the transmission unit. Thus, for example, the power command and the The information is included in the single jujube associated with a common 122838.doc -46 - 200822589 transmission unit (for example, within the power amount and the information is included in the ^ hand ρ 7 included in the I knife The system 1300 can further include a module 1308 for evaluating whether the lesser 3 - the logical reception 1 is associated with a second, a N, and a N-type identifier of the wireless terminal. According to an example, 兮筮 攸 贝 贝 贝 贝 柒 柒 柒 柒 柒 柒 柒 柒 柒 柒 柒 柒 柒

The second twist of the wireless terminal is #^ years old and another J 暧 mask. Moreover, system 1300 can include a logic module 13 10 for use in various information and expected information.

When there is a lack of correlation, the silk is mistakenly restored. For example, the error recovery may include disconnecting the connection from the base station and/or transitioning from the duration to the HOLD. For software implementations, the techniques described herein can be used to perform the functions described herein, and (e.g., order, power, etc.) to construct the techniques described herein. The software codes can be stored in the memory unit and executed by the processor. The memory unit can be built into the processor or external to the processor. In the latter case, the memory unit can be communicatively coupled to the processor by various means known in the art. What has been described above includes examples of one or more embodiments. Of course, it is not possible to describe every conceivable combination of the various components or methods for the purpose of illustrating the foregoing embodiments, but it will be apparent to those skilled in the art that various further combinations and arrangements are possible in the various embodiments. Accordingly, the described embodiments are intended to cover all such changes, modifications, and variations in the scope of the invention. In addition, for the wording &quot;includes&quot; used in this detailed description or the scope of the patent application, the wording is intended to be used in conjunction with the wording 'comprising' as a turning point in a request item. The words 122838.doc • 47· 200822589 are explained in the same way. [Simplified illustration of the drawings] Figure 1 is a diagram of one of the wireless communication systems according to various aspects described herein. Figure 2 is a diagram of one of the systems, The system facilitates the use of user-specific poor messaging to verify resource utilization associated with a wireless terminal. Figure 3 is an illustration of an exemplary astrological map that is receivable via a downlink power control channel The complex symbols are associated. Figure 4 is a diagram of a system that verifies the identity of a wireless terminal using a resource-related downlink power control channel. Figure 5 is a downlink power control channel (DL.PCCH) An exemplary illustration of one of the segments. Figure 6 is an illustration of one of the methods that facilitates controlling the transmission power of a wireless terminal. Figure 7 is an illustration of one of the methods that facilitates selection Entering data within a symbol transmitted via the use of downlink power control channel resources. Figure 8 is a diagram of one of the methods that facilitates evaluation of wireless terminal-specific power control provided via a downlink power control channel Figure 9 is an illustration of one of the example communication systems (e.g., a cellular communication network) implemented in accordance with various aspects. / Figure 1 is an example end node associated with various aspects (e.g. 1 is an illustration of one of the example accesses 122838.doc -48-200822589 nodes implemented in accordance with various aspects described herein. Figure 12 is an illustration of one of the systems, the system Verifying the identity of a wireless terminal and controlling the transmission power of the wireless terminal. Figure 13 is a diagram of one of the systems that facilitates controlling the transmission power of a wireless terminal. [Key Symbol Description] 100 System (

102 base station 104 wireless terminal 106 power controller 108 wireless terminal verifier 110 verification information comparator 200 system 202 base station 204 wireless terminal 206 unique identification assigner 208 scrambled mask storage 210 scrambled mask storage 212 Session ON Identification Assigner 214 Power Control Channel Identifier 216 Power Controller 218 Wireless Terminal Verifier 220 Verification Information Comparator 222 Power Conditioner 122838.doc -49- 200822589 224 Error Processor 300 Astrology Diagram 302 Symbol 304 Symbol 306 Symbol 308 Symbol 310 Symbol 400 System 402 Base Station 404 Wireless Terminal 406 Wireless Terminal 408 Power Controller 410 Wireless Terminal Verifier 412 Authentication Information Comparator 414 Authentication Information Comparator 502 Segment 900 Communication System 902 Network 904 Server 905 Network Key 906 Node 907 Network Link 908 Network Link 909 Home Agent Node 122838.doc -50- 200822589 910 Intermediate Network Node 911 Network Link 912 Intermediate Network Node 940 Access Node 940 Access node 940, access node 941 network link 94" network link 941, network link 944 end node 944, end node 944" end node 945 access link 945, access link 945" access link 946 end node 946, end node 946, End node 947 access link 947, access link 947, access link 948 communication cellular cell 948, communication cellular cell 948, communication cellular cell 122838.doc -51 200822589 1000 1002 1004 1006 1010 1012 1014 1016 1018 1030 1032 1034 1036 1038 1040 1042 1044 1046 1048 1050 1100 1102 1104 End node housing processor bus memory signal transmission / control module signal transmission / control data configuration information operation information wireless communication interface receiver module transmitter module Group receiving antenna transmitting antenna user input/output interface user input device user output device comparator module power adjuster module error handler module access node housing processor busbar 122838.doc -52- 1106 200822589 1110 Memory 1112 Status Management Module 1113 Status Management Data 1114 Signal Transmission/Control Module 111 5 Signal transmission/control data 1120 Network/Internet interface 1122 Receiver module 1124 Transmitter module 1130 Wireless communication interface module 1132 Receiver module 1134 Transmitter module 1136 Receiving antenna 1138 Transmitting antenna 1140 Unique ID assigner Module 1142 ON ID Assigner Module 1144 Power Controller Module 1146 WT Validator Module 1200 System 1202 Logic Module 1204 Logic Module 1206 Logic Module 1300 System 1302 Logic Module 1304 Logic Module 122838.doc -53 - 200822589 1306 Logic Module 1308 Logic Module 1310 Logic Module

122838.doc -54

Claims (1)

200822589, Patent Application Park: A method for facilitating control of a transmission power of a first wireless terminal and detecting a disconnected connection state thereof, comprising: ^ a predetermined subset and at least one of the transmissions within the transmission unit An ON identifier is assigned to the first wireless terminal, the at least one ON identifier being associated with a second predetermined subset of one of the transmission units of the transmission unit; at least one power command in the subset of the first transmission unit; Transmitting, in the transmission unit, information based on at least one terminal identifier of the first wireless terminal, such as request item 1, in the subset of the second transmission unit, wherein the transmission unit is within an (OFDM) symbol period A carrier-modulated orthogonal frequency division multiplexing 3. The method of claim 2, wherein the second subset is the predetermined subset. 4. The method of claim 3, further comprising: = - the specific transmission unit included in the second transmission unit subset: the same: at least one of the component and the - quadrature component - transmitting the power to the same This information is transmitted by the force in the specific transmission unit and the other in the sarcophagus. 5. The method of claim 4, further comprising: • the transmission unit belonging to the first transmission two transmission unit (4) early sub-set and not belonging to the first in-phase component characteristic transmission unit The at least one of the orthogonal components transmits the power 122838.doc 200822589 command; and the other of the in-phase component and the quadrature component in the same particular transmission unit transmits less than 20% of the energy level. 6. The method of claim 4, wherein the terminal identifier is one plus. 7. The method of claim 6, wherein the information comprises at least the bit position of the at least one bit in the scrambling mask of the scrambling mask based on the particular transmission unit. 8. At least twice the number of such transmissions in the subset of transmission units in the first subset of claim 3, in the area of claim 3, . 9. If the request is § half of your request, the transmission units in the first subset are eight times the transmission units in the second subset. 10. The method of claim 4, wherein the step further comprises: :: the terminal identifier being assigned to the first wireless terminal n. The method of claim 10, further comprising: from the first wireless terminal Removing the (10) identifier and the terminal identifier to assign the ON identifier to the terminal identifier J, and the third terminal is different from the = third wireless terminal, wherein the 12. Method of request item 3 = terminal machine. The first subset of the N transport orders are sorted in ascending order of time within the transport list &amp; 〆, and the second subset of the ordered subsets contains the integers in the first subset. And a transmission unit, wherein the N system is greater than 1 122838.doc 200822589 13. The method of claim 1, the first wireless terminal. The subset and the second subset are specific to the 14. wireless communication device, including: - a hidden entity 'configured to hold a terminal identifier associated with the wireless terminal and configured for the wireless At least one (10) identifier of the terminal, the at least one ON identifier being associated with a first predetermined subset of one of the transport units and a second predetermined subset of one of the transport units; Processing $, the M configuration is to issue a power command in at least one of the first transmission unit + set, and in the second subset of the second transmission unit; transmitting from the terminal in the transmission unit Machine identifier information. 15. The wireless communication device of claim 14, wherein the transmission unit is a carrier tone within an orthogonal frequency division multiplexing (OFDM) symbol period. 16. The wireless communication device of claim 14, wherein the second subset is a predetermined subset of the first subset. 17. The wireless communication device of claim 16, wherein the first subset comprises transmission units that are at least twice as large as the second subset. 18. The wireless communication device of claim 16, wherein the first subset comprises eight times the transmission unit included in the second subset. 19. The wireless communication device of claim 14, wherein the processor transmits the power command within the in-phase component and the - quadrature component of the common transmission unit included in the second transmission unit subset, And transmitting the information in the other of the in-phase component and the quadrature component. 2. The wireless communication device of claim 14, wherein when the first transmission unit sub-122838.doc 200822589 set includes a common transmission unit and the second transmission unit subset does not include the common transmission unit, the processing is The energy material transmits the power command in one of an in-phase split and a quadrature component of the common transmission unit, and the processor is in another one of the in-phase component and the quadrature component of the common transmission unit The energy level of less than 2% is transmitted within the device. 21. The wireless communication device of claim 14, wherein the processor transmits information from the terminal identifier 'the information includes at least one bit of a scramble mask, the at least one bit in the scramble mask The one-bit position of the element is based, at least in part, on a related transmission unit. The wireless communication device of claim 14, wherein the processor assigns the terminal identifier to the wireless terminal. 23. A wireless communication device for verifying the identity of a wireless terminal and controlling the transmission power of the wireless terminal, comprising: means for assigning an -ON identifier to the wireless terminal, the ON identifier and Transmission single 亓 锋 ( (4) one of the first predetermined subset and the transmission unit Corresponding to one of the first predetermined subsets; a means for transmitting at least one power command in the first subset of the first transfer wheel in the transmission unit; and for transmitting the second transmission in the second transmission The component of the wireless terminal machine. The at least one transmission unit in the meta-group is associated with a terminal identifier. 24. The wireless communication device of claim 23, wherein the step further comprises: in the same subset from the far second transmission unit subset The component and the transmission of the power command 122982.doc 200822589 component; and the other component of the in-phase component and the quadrature component of the common transmission unit The component that transmits the information within the person. The wireless communication device of claim 23, further comprising: for using an energy level in an in-phase component and a quadrature component of the particular transmission unit when the first subset includes a particular transmission unit a means for transmitting the power command in one of; and means for transmitting on the other of the in-phase component and the quadrature component at a reduced energy level. The wireless communication device of claim 23, wherein the terminal identifier is a scramble mask and the information associated with the wireless terminal interferes with at least one bit of the mask. 27. A machine readable medium command comprising: having at least one first set of instructions executable by a machine stored thereon for assigning to a wireless final predetermined subset and the subset of meta-elements for use in an ON identifier a pointing machine, the ON identifier being associated with a second predetermined subset of the first transmission unit of one of the transmission units; a second set of instructions for issuing a single transmission unit in the first transmission wheel And a third set of instructions for causing information about the wireless terminal identifier to be transmitted within a transmission of the at least one value 铋is - 'a subset of the earth-transmitting unit. The machine is based on a machine 28. The machine readable medium of claim 27, the further package - the fourth set of instructions is used in the phase component and a quadrature component of the one of the U to the 12838.doc 200822589 Dissecting the power command, wherein the at least one transmission unit is included in the second transmission unit subset; and a fifth instruction set for causing the in-phase component and the positive in the same at least one transmission unit Transmitting the information in the other of the cross-components. The machine-readable medium of claim 27, wherein the terminal identifier is a scrambling mask and the information is based on the at least one transmission One or more bits of the scrambled mask selected by the cell-related index. a processor executing the following instructions: assigning an ON identifier to a wireless terminal, the 〇N identifier being associated with a subset of a predetermined-predetermined transmission unit and a: predetermined transmission rate; At least one transmission unit power command in the subset of the first transmission unit; and transmitting information based at least on the terminal identifier of the wireless terminal in at least one transmission unit of the second transmission unit subset. 31. The processor of claim 3, wherein the metasystem 隹* cognates at least twice the number of transmission units in a subset of the transmissions in the first subset. 32. The processor of claim 30, wherein the transport orders 70 in the first subset are eight times the transport units within the subset. 33. A method for facilitating evaluation of a wireless terminal comprising: machine characteristic power control information, receiving an ON identifier, the (10) identification unit subset and a second predetermined transmission unit subset; 疋 transmission 122838.doc 200822589 Receiving a power command in at least one of the first transmission unit subsets; 接收 receiving in the at least one transmission unit of the second transmission unit subset. Separatingly based on information relating to a terminal identifier associated with a wireless terminal; comparing the received information associated with the wireless terminal with the expected information associated with the wireless terminal, and f, based on the fact that Tianhu received the poor news to match the expected information, the power command adjusts a power level. 34. The method of claim 33, wherein the transmission unit is a carrier tone within an orthogonal frequency division multiplexing (OFDM) symbol period. 35. As for the #法法 of Item 33, the second subset of # is a predetermined subset of the first subset. The method of claim 33, further comprising: receiving the power command in one of (5) a phase cutter and a positive father branch of a particular transmission unit included in the second transmission unit subset; The information is received within the other of the in-phase component of the same particular transmission unit and the quadrature component. 37. The method of claim 33, further comprising: when a particular transmission unit belongs to the subset of the first transmission unit and does not belong to the subset of the second transmission unit, in the same phase component and the intersection of the transmission unit The power command is received at an energy level; and the energy level is less than 20% in the other of the in-phase component and the quadrature component of the same specific transmission unit. 122838.doc 200822589 38. As in the method of claim 33, the cover. The terminal identifier is a scrambling mask. The method of claim 38 includes at least one location of the scramble mask, the buffer mask being associated with a transmission unit. The method of claim 33, wherein the method of claim 33, wherein at least twice the number of the transport units within the first subset of the transmission units in the subset of the #^ Μ - ^ 4 ^ VA$. C 41. The method of claim 33, wherein the 第二 兮 该 该 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 42. The method of claim 33, wherein the error is restored when the apricot matches the expected information. ^ The received information fails the 43.2 method, wherein the error recovery includes at least one of disconnecting from a base station and transitioning from a session (10) to a session hold. 44. A wireless communication device, comprising: a memory device that stores an expected end-to-end device corresponding to a helmet--green final machine. Do not pay - (10) identifier, the 0N identifier is associated with a first pre-transmission unit subset and a first transmission subset; and a processor in the first transmission; Ππ receives a power command from at least one transmission of the L-single, receives information based on the terminal identifier in at least two transmission units of the subset of the second transmission unit, compares the period of receiving information and is expected The terminal identifier is associated with and based on the comparison, a power level is adjusted. 45. If the wireless communication device of claim 44 fails to match the pre-(four) associated information, the processor further implements the error 122838.doc 200822589. 46. The wireless communication device of claim 45, The error recovery includes at least one of disconnecting from a base station and transitioning from a period of time 〇N to a period of crispness D. 47. If the wireless communication of claim 44 is injurious, the processor proceeds to the Receiving the power command in one of the in-phase component and the - quadrature component of the specific transmission unit included in the second transmission subset, and the in-phase component and the orthogonal component of the same specific transmission unit The other party receives the information. 48. The wireless communication device of claim 44, wherein the transmissions in the first subset are as early as eight times the transmission units in the second subset. - A wireless communication device for controlling the transmission power of a wireless terminal, comprising: means for obtaining an ON identifier, the identifier of the first-predetermined transmission unit and - ": Scheduled transmission unit subset Corresponding; means for receiving a power command in at least one of the first transmission unit subsets; for receiving at least one of the second transmission unit subsets based at least in part on a first a component of information of a terminal identifier; means for evaluating whether the received information is associated with a desired information associated with a second terminal identifier of the wireless terminal; and for identifying There is a lack of a component between the received information and the expected information to implement error recovery. The wireless communication device of claim 49, wherein the transmission unit is orthogonally divided. The radio communication device of claim 49, further comprising: one of the in-phase components for a particular transmission included in the second subset of transmission units And means for receiving the power command in one of a quadrature component; and for using the other of the in-phase component and the quadrature component of the same specific transmission unit The means for receiving the information. The wireless communication device of claim 49, further comprising means for adjusting the power level based on the power command when the received information matches the expected information. The read medium 'which has machine executable instructions stored thereon' includes: a first instruction set 1 obtains a "(10) identifier, and the (10) identification payment system relates to a _value_留_々 transmission early 疋 subset and a a second transmission unit subset; an A7 set, configured to receive a power command in at least a (four) round unit of the first transmission unit sub-unit; a set to a set and a set of instructions for use in the first _ Passing a single pass to transmit at least the early 7C subset; receiving a fourth set of instructions associated with a first-terminal identifier for determining the identifier-related order - ", this younger one Terminals ^ ^ Lianbei News whether it matches the expected information related to the second-level surname. I., S editorial knowledge 122838.doc 200822589 - The fifth instruction set is used for the connection Expected information (4) Error recovery. Wo (10) with a remote location 54. If the machine readable medium of claim 53, the step _step includes: , 4 command set, used in the second pass star to start + 的 - special macro (four) i, get Receiving the power command in one of the in-phase component and one of the quadrature components of the early transmission π subset; and The phased command f is used to receive the information in the other of the same specific transmission unit and the other of the positive parent components. 55. The machine readable medium of claim 53 wherein the machine executable instructions further comprises modifying a power level based on the power command when the received information matches the expected information. 56=machine-readable medium of claim 53, the first terminal identifier 糸-scrambling mask, the second terminal identifier-second second mask, the received message includes the first - scrambling at least one of the masks' and the expected information comprising at least one bit of the second scrambled mask. 57. A processor that executes the following instructions: Paid - QN identifier, the The 〇Ν identifier is associated with the first-predetermined transmission unit subset and the second predetermined transmission unit subset; receiving a power command in at least one transmission unit of the first transmission unit subset; Receiving at least one of the information of the first terminal identifier in at least one of the transmission units of the unit subset; comparing the received information associated with the first terminal identifier with U2S38.doc -II - 200822589 Expected to associate with a wireless terminal identifier associated with a wireless terminal; and the second terminal identifies that the received information corresponds to the expected resource = command to adjust a power level. The processor of claim 57, wherein the first sub-element is a transfer order of 59 pieces of the transfer unit of the transfer unit in the second subset. The processor of claim 57, wherein the step further comprises using two (i is not associated with the expected information, and the error γ is received by 6°. The processor of claim 59... the error recovery includes the self-two-break connection and From the session (10) to at least the HOLD of the session - the earth. Taiwan cut 122838.doc 12-